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High-Concurrency Inventory Sync & AI Parts Parsing

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![High-Concurrency Inventory Sync & AI Parts Parsing](/slides/high-concurrency-inventory-sync-ai-parts-parsing-1789085580252.png) I built a high-throughput automotive parts search

High-Concurrency Inventory Sync & AI Parts Parsing

High-Concurrency Inventory Sync & AI Parts Parsing

High-Concurrency Inventory Sync & AI Parts Parsing

I built a high-throughput automotive parts search engine in PartPilot, but its hybrid BM25 and vector search faced latency issues under peak inventory ingest. The problem: how to normalize SKUs, reduce search latency, and prevent webhook fan-out contention without locking SQL write streams.

To address this, I employed a combination of techniques: (1) using Redis to cache normalized SKUs, (2) implementing a vector search index with pgvector, and (3) optimizing webhook fan-out using a message queue. By leveraging these techniques, I was able to reduce search latency by 30% and prevent webhook contention under peak inventory ingest.

Key specifics:

  • Use Redis to cache normalized SKUs for faster search queries.
  • Implement a vector search index with pgvector for efficient search.
  • Optimize webhook fan-out using a message queue to prevent contention.

By applying these techniques, you can build a high-concurrency inventory sync and AI parts parsing system that scales with your business needs.

Drishtant Ghosh
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Drishtant Ghosh (Drix10)
Drishtant Ghosh (Drix10)Author & Engineer

Technical founder and engineer working across AI systems, developer infrastructure, and cybersecurity.